3 edition of Efficient placement of structural dynamics sensors on the space station found in the catalog.
Efficient placement of structural dynamics sensors on the space station
|Statement||by Janet A. Lepanto, G. Dudley Shepard.|
|Series||CSDL-R -- 2812., NASA-CR -- 172015., NASA contractor report -- NASA CR-172015.|
|Contributions||Shepard, G. Dudley., United States. National Aeronautics and Space Administration.|
|The Physical Object|
The acceleration vector field developed in a beam-like elastic structure is sampled over the space–time domain by a tri-axial accelerometer relocated over the beam surface while triggered by another mono-axial accelerometer fixed in space to attain synchronism. This technique leads to structure-geometry consistent spatio-temporal measurements of coupled structural dynamics. T1 - Optimal sensor placement of large flexible space structures. AU - Tongco, Emerson. AU - Meldrum, Deirdre. PY - /1/1. Y1 - /1/1. N2 - A predeveloped sensor placement algorithm is experimentally evaluated. This algorithm determines the optimal number of sensors needed to identify and detect all possible motions.
Optimization of sensor placement for guided waves based SHM using fiber Bragg grating sensors Paper Author(s): Rohan N. Soman, The Szewalski Institute of Fluid-Flow Machinery (Poland); Junghyun Wee, Kara Peters, North Carolina State Univ. (United States); Wieslaw Ostachowicz, The Szewalski Institute of Fluid-Flow Machinery (Poland). Sensors. SDL has a thorough understanding of remote and in situ sensing and has been responsible for the design, fabrication, and operation of sensors on over space-based and rocket-borne payloads as well as hundreds of aircraft-, UAV-, and ground-based systems.
ISS Utilization: ROSA (Roll Out Solar Array) Launch Research overview of ROSA Mission Status References. The ROSA technology is a new/innovative mission-enabling solar array system that will offer maximum performance in key areas and affordability for NASA's future space missions. Handbook Dynamical Systems, the Three Body Problem and Space Mission Design PDF P Orbital Dynamics for the COMPLEAT IDIOT PDF 12P. Operational Space Dynamics of a Space Robot and Computational Efficient. The operational space dynamics is a formulation of ional Space Dynamics: Efficient Algorithms for.
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Efficient placement of structural dynamics sensors on the space station (SuDoc NAS ) [Janet A. Lepanto] on *FREE* shipping on qualifying offers. The placement of structural dynamics sensors on the space station is a particularly challenging problem because the station will not be deployed in a single mission.
Given that the build-up sequence and the final configuration for the space station are currently undetermined, a procedure for sensor placement was developed using the assembly flights 1 to 7 of the rephased dual keel space station. Get this from a library. Efficient placement of structural dynamics sensors on the space station.
[Janet A Lepanto; G Dudley Shepard; United States. National Aeronautics and Space Administration.]. The placement of structural dynamics sensors on the space station is a particularly challenging problem because the station will not be deployed in a single mission.
The build-up sequence of several assembly flights means that it is actually a series of space stations that must be instrumented, not just a final configuration. The placement of structural dynamics sensors on the space station is a particularly challenging problem because the station will not be deployed in a single mission.
Given that the build-up sequence and the final configuration for the space station are currently undetermined, a procedure for sensor placement was developed using the assembly flights 1 to 7 of the rephased dual keel space station Author: G.
Dudley Shepard and Janet A. Lepanto. Most recently the problem of optimal sensor placement for state estimation and joint state-input estimation has been treated by Weickgenannt at al., van den Linder et al.
and Zhang and Wang. In an optimal sensor location strategy was developed for an active shell structure. The approach was based on a dual-objective optimization, namely minimizing the number of sensors and a measure Cited by: 9.
Vehicle structural modes reside at the low-frequency end of the vibratory portion of the acceleration spectrum. These vibrations fall within the frequency range from about hertz to about 5 hertz. These vibrations arise from the excitation of natural frequencies associated with large components of the space station structure, such as.
A real-time computer-hardware simulation for the investigation of space station dynamics and control problems is described. The simulation utilizes full-scale control moment gyro (CMG) hardware mounted on a moving base simulator, a manual console, and a Control Data (CDC) digital computer to represent a space station and its control system.
39th AIAA/ASME/ASCE/AHS/ASC Structures, Structural Dynamics, and Materials Conference and Exhibit. 20 April - 23 April Efficient Monte Carlo probability estimation with finite element response surfaces built from progressive lattice sampling Accelerometer placement for the International Space Station node modal test.
Michael. Efficient Sensor Placement Optimization for Shape Deformation Sensing of Antenna Structures with Fiber Bragg Grating Strain Sensors 1 August | Sensors, Vol. 18, No. 8 Optimal sensor placement methods and metrics – comparison and implementation on a timber frame structure.
State-Space Formulation for Structural Dynamics by Jose Luis Mendoza Zabala B.S., Civil and Environmental Engineering () University of Texas at Austin Submitted to the Department of Civil and Environmental Engineering in partial fulfillment of the requirements for the degree of Master of Science in Civil and Environmental Engineering.
Unlike traditional sensor placement approaches, in which these two types of sensors are often designed separately to monitor structural deformations and displacements respectively, the integrated design procedure presented in this study treats the sensor system as a whole.
The optimum location of the sensors is a critical issue of any successful Structural Health Monitoring System. Sensor optimization problems encompass mainly three areas of interest: system.
Norris G.A., Skelton R.E. () Placing Dynamic Sensors and Actuators on Flexible Space Structures. In: Schweitzer G., Mansour M.
(eds) Dynamics of Controlled Mechanical Systems. International Union of Theoretical and Applied Mechanics (International Federation of Automatic Control). A C K N O W L E D G M E N T S The authors would like to thank Dr. Kyong Lim of N A S A Langley Research for a pre-published copy of his book chapter on actuator and sensor placement that Velocity Feedback Control of Large Space Structures," AIAA Journal of Guidance &.
The objective of optimal sensor placement (OSP) is to obtain a sensor layout that gives as much information of the dynamic system as possible in structural health monitoring (SHM).
maximize the test efficiency, reduce test costs and limit the unavailability of the prototype under test.
An example is shown in Fig. 4 where the optimal sensor locations for a test on a prototype for the space-station return vehicle are derived from a FE model. Fig. 4: FE-based sensor grid definition for a space structure Test Instrumentation.
Structural vibrations propagate via mechanical linkage and transmission. While the frequency of these disturbances may be registered the same throughout the space station, their amplitude is a function of location. Structural mode vibrations tend to be low amplitude during crew sleep periods relative to.
"Introduction to Space Dynamics" by William Tyrrell Thomson Overall, this is a classic and essential book for those serious about astrodynamics and understanding space systems. The text is a great introduction to a broad set of categories in space dynamics including both rocket and satellite s: Sensors and Instrumentation, Aircraft/Aerospace and Energy Harvesting, Volume 7: Proceedings of the 38th IMAC, A Conference and Exposition on Structural Dynamics,the Available Formats: Hardcover eBook.
This book, edited by the European Space Policy Institute, is the first international publication, following UNISPACE+50, to. Zhou 14 used a genetic algorithm to apply the energy‐based sensor placement theory criterion to a space grid structure and optimized the placement of sensors in the space grid structure.
Based on the model polycondensation method, Yi et al 15 optimized the Guangzhou New TV Tower accelerometer sensor placement.Figure The finite-element model of the International Space Station structure. Based on this definition, we derive many interesting properties of structures and their controllers later in this book.
The above conditions are somehow restrictive, and introduced to justify the mathematical approach used in this book.Janet A. Lepanto has written: 'Efficient placement of structural dynamics sensors on the space station' -- subject(s): Space stations, Structural dynamics, Attitude control systems Asked in.